Trend watch: Freight & logistics decarbonization in 2026 — signals, winners, and red flags

Freight transport accounts for approximately 8% of global CO2 emissions, and the International Transport Forum projects that without intervention, freight volumes will triple by 2050, driving emissions up by 160%. Yet in 2025, zero-emission truck orders grew 92% year-over-year globally, reaching over 72,000 units according to the International Council on Clean Transportation. The freight decarbonization race has shifted from theoretical roadmaps to hardware on roads, ships in ports, and electrons flowing through charging depots. This trend watch examines where freight logistics decarbonization stands in 2026, which players are gaining ground, and what red flags could slow momentum.

Why It Matters

Freight and logistics sit at the intersection of three converging pressures. First, regulatory mandates are tightening globally. The EU's CO2 standards for heavy-duty vehicles require a 45% reduction by 2030 and 90% by 2040 from 2019 baselines. California's Advanced Clean Fleets regulation mandates that manufacturers sell an increasing percentage of zero-emission trucks starting in 2024, reaching 100% by 2036 for certain segments. These are not aspirational targets: they carry compliance penalties and affect vehicle registration.

Second, shippers face direct carbon cost exposure. The EU Emissions Trading System extended to maritime shipping in 2024, with full compliance obligations by 2026. CBAM is repricing the carbon embedded in goods transported across borders. Large retailers and consumer goods companies including Walmart, IKEA, and Unilever have set Scope 3 targets that explicitly cover transportation emissions, pushing decarbonization requirements down to logistics service providers.

Third, the economics are shifting. Bloomberg New Energy Finance estimated that the total cost of ownership for battery-electric trucks reached parity with diesel in several short-haul and medium-duty segments in Western Europe and parts of North America by late 2025. For long-haul and heavy-duty applications, the crossover remains 3-5 years away, but declining battery prices and rising diesel taxation are accelerating the timeline. The convergence of regulation, customer demand, and economic viability is compressing the transition window.

Key Concepts

Battery-electric trucks (BETs) use lithium-ion or lithium-iron-phosphate batteries to power electric drivetrains. Current models offer ranges of 250-500 km per charge, covering approximately 60% of freight ton-kilometers in regional and urban distribution applications.

Hydrogen fuel cell electric vehicles (FCEVs) generate electricity on-board through hydrogen fuel cells, offering longer range (500-800 km) and faster refueling (15-20 minutes) than BETs. FCEVs target long-haul, heavy-payload corridors where battery weight and charging time create operational constraints.

Green corridor programs designate specific trade routes where zero-emission shipping or trucking infrastructure is concentrated, including charging or hydrogen refueling stations, port electrification, and regulatory incentives. The Clydebank Declaration, signed by over 25 countries, targets establishment of at least six green shipping corridors by 2025.

Well-to-wheel emissions capture the full carbon impact of a vehicle's fuel source, including upstream energy production, transmission losses, and tailpipe emissions. This metric is critical because a hydrogen truck fueled by grey hydrogen (produced from natural gas without carbon capture) may have higher lifecycle emissions than a modern diesel vehicle.

What's Working

Volvo Trucks' electric heavy-duty deployment has achieved meaningful commercial scale. As of late 2025, Volvo had delivered over 5,500 electric trucks across Europe, with customers including DHL, DB Schenker, and DFDS reporting operational data showing 40-60% lower total cost of ownership compared to diesel equivalents in urban and regional distribution. The FH Electric, with a range of up to 300 km, has proven particularly effective in the Nordics and Benelux countries where grid electricity is relatively clean, electricity prices are competitive, and overnight depot charging aligns with fleet operations.

Maersk's methanol-fueled container ships represent the most significant decarbonization bet in ocean freight. Maersk ordered 25 dual-fuel methanol vessels between 2021 and 2025, with the first ships entering service on the Asia-Europe trade lane in 2024. The vessels can run on green methanol produced from captured CO2 and renewable hydrogen, achieving 65-80% lifecycle emissions reductions compared to conventional heavy fuel oil. Maersk has secured multi-year offtake agreements for green methanol from producers in Denmark, Spain, and the United States, creating demand signals that are catalyzing investment in production capacity.

Amazon's Climate Pledge and middle-mile electrification has deployed over 13,000 electric delivery vans across North America and Europe by late 2025, manufactured by Rivian and Mercedes-Benz. Amazon also invested in Infinium, a producer of electrofuels for long-haul trucking, and installed megawatt-scale charging infrastructure at over 100 fulfillment centers. The program demonstrates that vertically integrated logistics operators can accelerate adoption by controlling fleet procurement, charging infrastructure, and route optimization simultaneously.

What's Not Working

Hydrogen refueling infrastructure for heavy-duty trucks remains critically underdeveloped. Despite announcements from Hyundai, Nikola, and Daimler Truck of hydrogen FCEV models, the global network of heavy-duty hydrogen refueling stations numbered fewer than 150 by early 2026. Station utilization rates averaged below 30%, creating a chicken-and-egg problem where operators will not deploy trucks without fuel availability and station developers cannot justify capital expenditure without committed fleets. The European Clean Hydrogen Partnership's target of 700 stations by 2030 appears at serious risk.

Biofuel blending mandates are generating compliance without deep decarbonization. Hydrotreated vegetable oil (HVO) and fatty acid methyl ester (FAME) biodiesel are increasingly used to meet renewable fuel obligations, but feedstock constraints limit genuine supply growth. A 2025 report from Transport and Environment found that over 35% of HVO consumed in Europe was produced from palm oil or palm oil derivatives, raising deforestation concerns. Biofuels serve as a transition tool for existing fleets, but reliance on blending mandates as a primary strategy delays the capital investment in electric and hydrogen infrastructure that delivers permanent emissions reductions.

Last-mile electric van deployment in emerging markets faces fundamental infrastructure barriers. While electric vans are proving economically viable in cities with reliable grid power and established charging networks, logistics operators in Southeast Asia, Sub-Saharan Africa, and South Asia report grid reliability issues, voltage instability, and permit delays for commercial charging installations. Flipkart and JD Logistics have piloted electric three-wheelers in Indian and Chinese cities respectively, but scaling beyond pilot corridors requires grid upgrades that are beyond the control of logistics operators.

Emissions measurement across multimodal supply chains remains fragmented. A single shipment from factory to consumer may involve ocean, rail, truck, and last-mile segments, each with different carriers, fuel types, and data systems. The Global Logistics Emissions Council (GLEC) Framework provides a methodology, but adoption among small and mid-sized carriers is below 20%. Without standardized, shipment-level emissions data, shippers cannot accurately compare carriers, and sustainability-linked logistics procurement remains more aspiration than practice.

Key Players

Established Leaders

• Volvo Trucks: Leading electric heavy-duty truck OEM with over 5,500 units delivered, offering models covering urban, regional, and construction segments.
• Daimler Truck: Dual-strategy approach with battery-electric (eActros, eCascadia) and hydrogen fuel cell (GenH2) trucks, targeting commercial production of both by 2027.
• Maersk: Largest container shipping line, pioneering methanol-fueled vessels and setting industry pace for alternative fuel adoption.
• IKEA: Committed to zero-emission deliveries in major markets by 2025, working with logistics partners to electrify last-mile and middle-mile transport.

Emerging Startups

• Einride: Swedish autonomous electric freight company operating electric truck pods and a digital freight platform across the US and Europe, with clients including Lidl and Oatly.
• Infinium: Produces ultra-low carbon electrofuels from captured CO2 and green hydrogen, targeting long-haul trucking and aviation where direct electrification is not feasible.
• Fleetzero: Developing battery-swappable container ships for short-sea routes, using modular battery containers that can be swapped at port, eliminating charging downtime.
• Forum Mobility: Building a network of zero-emission truck charging depots at ports along the US West Coast, targeting drayage trucks that contribute disproportionately to local air pollution.

Key Investors and Funders

• Amazon Climate Pledge Fund: Invested in multiple freight decarbonization startups including Infinium, Rivian, and CarbonCure, deploying over $2 billion since 2020.
• European Investment Bank (EIB): Financing zero-emission truck charging infrastructure and green shipping corridors across the EU with >$4 billion in committed facilities.
• Breakthrough Energy Ventures: Backed Infinium, Turntide Technologies, and other freight-adjacent cleantech companies focused on electrification and alternative fuels.

Signals to Watch in 2026

Signal	Current State	Direction	Why It Matters
Zero-emission truck orders	72,000+ units in 2025	Growing 50-70% annually	Indicates OEM production scaling and fleet operator commitment
Battery pack cost per kWh (truck-grade)	$118/kWh average	Declining 8-12% annually	Drives TCO parity in heavier segments
Green methanol production capacity	2.1 million tonnes/year	Tripling by 2028	Determines whether maritime fuel switching remains viable
Heavy-duty hydrogen stations	~150 globally	Growing slowly	Bottleneck for FCEV truck deployment
EU ETS maritime compliance cost	$25-45/tonne CO2	Rising with cap reduction	Creates direct financial incentive for cleaner fuels
GLEC Framework adoption rate	~20% of carriers	Increasing with regulation	Standardized measurement enables carrier comparison

Red Flags

Stalled charging infrastructure buildout relative to truck deliveries. OEMs are scaling production faster than grid connections and depot charging installations can be permitted and constructed. If the ratio of available charging points to deployed electric trucks falls below 1:5 in key corridors, fleet operators will face utilization constraints that undermine the business case and slow further orders.

Green fuel cost premiums remaining above 2x conventional fuels. Green methanol, green hydrogen, and electrofuels currently cost 2-4 times their fossil equivalents. If production scale-up does not bring premiums below 2x by 2027-2028, shippers will resist switching and regulatory mandates will face political pushback, particularly in emerging markets where freight cost sensitivity is highest.

Fragmentation of emissions reporting standards. The EU's CountEmissions EU regulation, the US EPA SmartWay program, and various national frameworks are developing overlapping but inconsistent methodologies for freight emissions reporting. Carriers operating across jurisdictions face multiplying compliance costs, and shippers cannot aggregate emissions data across their networks without manual harmonization. Convergence on the ISO 14083 standard is critical.

Overreliance on LNG as a "bridge fuel" in shipping. Liquefied natural gas has captured a significant share of alternative-fuel newbuild orders, but methane slip (unburned methane released during combustion) can eliminate 50-80% of the greenhouse gas benefit compared to heavy fuel oil. If methane slip is not addressed through engine technology improvements, LNG investments will lock in infrastructure for a fuel that delivers marginal climate benefit while diverting capital from genuinely zero-emission pathways.

Action Checklist

• Assess fleet operations by segment (urban, regional, long-haul) to identify where battery-electric trucks are already cost-competitive
• Engage with depot charging infrastructure providers and utilities to secure grid connections and permitting ahead of vehicle deliveries
• Require logistics service providers to report emissions using the GLEC Framework or ISO 14083 standard at the shipment level
• Evaluate green fuel offtake agreements for maritime and long-haul applications, locking in supply before demand-driven price increases
• Join industry green corridor initiatives to benefit from shared infrastructure investment and regulatory fast-tracking
• Build well-to-wheel emissions analysis into fuel strategy decisions, avoiding technologies where upstream emissions negate tailpipe gains
• Set fleet transition milestones aligned with regulatory timelines (EU HDV CO2 standards, California ACF, IMO GHG targets)

FAQ

What percentage of freight emissions can battery-electric trucks address today? Battery-electric trucks can currently serve approximately 60% of freight ton-kilometers in urban and regional distribution, covering routes under 300-400 km with return-to-depot operations. This segment accounts for roughly 45% of road freight emissions in developed markets. For long-haul corridors exceeding 500 km, hydrogen fuel cells or electrofuels are needed, though rapid improvements in battery energy density and megawatt charging are expanding the addressable range each year.

How does the EU ETS affect shipping costs? The EU ETS requires shipping companies to purchase emission allowances for CO2 emitted on voyages within, to, or from EU ports. At current carbon prices of $70-85 per tonne, this adds approximately $30-55 per TEU (twenty-foot equivalent unit) on major Asia-Europe routes. The cost is passed through to shippers, creating a direct financial incentive to choose carriers operating cleaner vessels. Full compliance obligations phased in during 2026 mean the cost signal will become more material for procurement decisions.

What is the total cost of ownership comparison between diesel and electric trucks? In urban and regional distribution in Western Europe, battery-electric trucks now show 15-30% lower total cost of ownership than diesel equivalents over 5-7 year ownership periods, driven by lower fuel and maintenance costs that offset higher upfront purchase prices. In North America, the gap is narrower (5-15% advantage for BETs) due to lower diesel prices and fewer purchase incentives. Long-haul heavy-duty segments remain 20-40% more expensive for electric, with parity expected by 2028-2030 depending on battery costs and electricity pricing.

Are there viable zero-emission options for ocean freight today? Green methanol is the most commercially advanced option, with Maersk operating dual-fuel methanol vessels on major trade lanes. Ammonia-fueled engines are in development, with MAN Energy Solutions and WinGD targeting commercial availability by 2026-2027. Battery-electric ships serve short-sea and ferry routes (under 100 nautical miles). Wind-assisted propulsion technologies such as rotor sails and suction wings are being retrofitted to existing vessels, delivering 5-15% fuel savings. No single technology dominates: the maritime sector is converging on a portfolio approach to decarbonization.

Sources

1. International Council on Clean Transportation. "Global Zero-Emission Truck Sales Tracker 2025." ICCT, 2025.
2. International Transport Forum. "ITF Transport Outlook 2025." OECD/ITF, 2025.
3. Bloomberg New Energy Finance. "Electric Vehicle Outlook 2025: Commercial Vehicles." BNEF, 2025.
4. Transport and Environment. "HVO: The Renewable Diesel That Isn't Always Green." T&E, 2025.
5. Maersk. "Sustainability Report 2025: Green Methanol Progress." A.P. Moller-Maersk, 2025.
6. European Commission. "CO2 Emission Standards for Heavy-Duty Vehicles: Implementation Progress." EC, 2025.
7. Global Logistics Emissions Council. "GLEC Framework 3.0: Adoption and Impact Report." Smart Freight Centre, 2025.
8. Volvo Trucks. "Electromobility Progress Report 2025." Volvo Group, 2025.